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Analytical Solutions for Transport Processes - Fluid Mechanics, Heat and Mass Transfer
Preface
7
Acknowledgements
9
Contents
10
Acronyms
14
Part I Fluid Mechanics
15
1 The Equations of Change in Fluid Mechanics and Their Analytical Solutions
16
1.1 The Equations of Change in Fluid Mechanics
16
1.2 Exact Solutions of the Equations of Change
18
1.2.1 Hydraulically Developed Flow
19
1.2.2 Further Exact Solutions
20
1.3 Approaches by Solving Simplified Equations of Change
20
1.3.1 Slender Flow Fields with Negligible Inertial Influence---The Lubrication Approximation
21
1.3.2 Slender Flow Fields at High Reynolds Number---The Boundary-Layer Approximation
24
1.3.3 Quasi One-Dimensional Flow
26
1.3.4 Quasi One-Dimensional Flow in a Slender Liquid Jet
31
1.3.5 Quasi One-Dimensional Flow in a Boundary Layer
33
References
36
2 The Equation for the Stokesian Stream Function and Its Solutions
37
2.1 The Equation for the Stream Function in Cartesian Coordinates
37
2.1.1 Linear, Unsteady Flow
39
2.1.2 Linear, Steady Flow
43
2.1.3 Nonlinear, Steady Flow with Constant Pressure
44
2.2 The Equation for the Stream Function in Cylindrical Coordinates
46
2.2.1 Polar, Linear, Unsteady Flow
47
2.2.2 Polar, Linear, Steady Flow
48
2.2.3 Polar, Nonlinear, Steady Flow
49
2.2.4 Axisymmetric, Linear, Unsteady Flow
50
2.2.5 Axisymmetric, Linear, Steady Flow
54
2.2.6 Axisymmetric, Nonlinear, Steady Flow with Constant Pressure
55
2.3 The Equation for the Stream Function in Spherical Coordinates
57
2.3.1 Linear, Unsteady Flow
58
2.3.2 Linear, Steady Flow
59
2.3.3 Nonlinear, Steady Flow with Constant Pressure
60
References
61
3 Laminar Two-Dimensional Flow
62
3.1 Steady Flow
62
3.1.1 Channel and Pipe Flows
62
3.1.2 Flow Between Coaxial Spinning Cylinders
67
3.1.3 Flow Outside a Spinning Sphere
68
3.1.4 Duct Flow with Injection and Suction Through the Walls
70
3.2 Unsteady Flow
73
3.2.1 The Two Stokesian Problems
73
3.2.2 Flow Outside a Cylinder in Oscillatory Spinning Motion
78
3.2.3 Starting and Fading Plane Couette Flow
80
3.2.4 Starting and Fading Channel and Pipe Flows
83
3.2.5 Pulsating Pipe Flow
89
3.2.6 Onset of Flow Between Two Concentric Spherical Shells
91
References
95
4 Lubrication Flow
96
4.1 Lubrication Approximation
96
4.2 Plane Slide Bearing
99
4.3 Pressure-Driven Flow Through a Plane Gap
101
4.4 Cylindrical Bearing
102
4.5 Pressure-Driven Flow Through a Cylindrical Gap
105
4.6 Pressure-Driven Flow Through a Spherical Gap
107
4.7 Wire Coating---Extended Lubrication Theory
109
References
111
5 Boundary-Layer Flow
112
5.1 Laminar Flow Along a Flat Plate
112
5.2 Flow Along a Slender Body of Revolution
116
5.3 Plane Submerged Free Jet
119
5.4 Axisymmetric Submerged Free Jet
123
5.5 Plane Free Shear Layer
129
5.6 Wake Behind a Flat Plate
131
References
133
6 Flows with Interfaces
134
6.1 Linear Temporal Instability of a Plane Liquid Sheet
134
6.2 Linear Temporal Capillary Instability of a Liquid Jet
141
6.3 Linear Spatial Capillary Instability of a Liquid Jet
151
6.4 Linear Oscillations of Drops and Bubbles
153
6.4.1 Linear Shape Oscillations of a Viscoelastic Drop
155
6.4.2 Linear Shape Oscillations of a Bubble in a Viscoelastic Liquid
165
6.5 Liquid Films from Drop Impact on Solid Substrates
176
6.6 Steady Creeping Flow Around a Spherical Particle
177
6.6.1 Hadamard--Rybczynski Flow Around a Fluid Spherical Particle
178
6.6.2 Stokes Flow Around a Solid Spherical Particle
181
References
183
Part II Heat and Mass Transfer
185
7 The Equations of Change for Heat and Mass Transfer and Their Analytical Solutions
186
7.1 The Thermal Energy Equation
186
7.2 Concepts for Simplifying the Thermal Energy Equation
187
7.3 The Equations of Change for Mass Transport
189
7.3.1 The Description of Fluid Mixtures
189
7.3.2 The Continuity Equation for a Mixture Component
191
7.4 Concepts for Simplifying the Continuity Equations
196
References
197
8 Heat Transfer
198
8.1 Heat Conduction
198
8.1.1 Steady Heat Conduction
199
8.1.2 Unsteady Heat Conduction---Early After Start or in Infinite Systems
206
8.1.3 Unsteady Heat Conduction---Long After Start in Finite Systems
209
8.2 Heat Transfer with Lumped Capacitances of Simple Geometries
230
8.3 Convective Heat Transport---Forced Convection
231
8.3.1 Heat Transfer Across a Flat-Plate Surface in Parallel Flow
232
8.3.2 Laminar Pipe Flow with Heat Transfer
236
8.4 Convective Heat Transport---Natural Convection
238
8.4.1 Natural Convection Along a Vertical Flat Plate
240
8.4.2 Natural Convection Between Two Vertical Flat Plates
244
References
246
9 Mass Transfer
247
9.1 Steady Diffusive Mass Transport---Equimolar and Stefan Flow
247
9.2 Diffusive Transfer Across Spherical, Spheroidal and Hyperboloidal Interfaces
249
9.2.1 Introduction
249
9.2.2 The Sherwood Number of Equimolar Diffusion for a Sphere
249
9.2.3 The Sherwood Number of Equimolar Diffusion on Spheroidal and Hyperboloidal Surfaces
251
9.3 Convective Mass Transfer from Flat Plate Surfaces
260
9.4 Liquid Phase Analysis in the Convective Drying of Drops
264
9.4.1 Introduction
264
9.4.2 Mathematical Description
265
9.4.3 Definition of the Problem
265
9.4.4 Analytical Solution of the Problem
269
9.4.5 Evaluation of the Equations and Example Calculations
273
References
277
Part IIIAppendices
279
Appendix AThe Equations of Change in TransportProcesses
280
Appendix BBasic Vector Analytical Operations
289
Appendix CSpecial Functions of Mathematical Physics
293
Index
305
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